Systems and methods for temperature monitoring and environmentally related calculations are disclosed herein. A system according to embodiments herein may include a memory, a network interface, and one or more processors. The system may receive one or more environmental readings from a sensor taking readings at an environmentally controlled area. The system may further determine a timestamp corresponding to each of the one or more readings and calculate, using the one or more readings and their corresponding timestamps, an exposure of a good stored within the temperature controlled area. The system may further determine that the calculated exposure of the good has surpassed a pre-determined exposure threshold for the good and send an electronic message configured to indicate such determination to a user. The system may use a neural network to predict future readings based on current readings and use the predicted future readings in methods described herein.

A temperature sensing tape including a flexible, electrically insulating substrate, a plurality of temperature sensing elements disposed on the substrate, each temperature sensing element including a first electrode and a second electrode arranged in a confronting, spaced-apart relationship to define a gap therebetween, and a variable resistance material disposed within the gap and connecting the first electrode to the second electrode, wherein the first electrode of at least one of the temperature sensing elements is connected to the second electrode of an adjacent temperature sensing element by a flexible electrical conductor.

A pressure and temperature measuring device with improved fluid flow control having a metal bulb that houses a temperature-sensitive element and a base with an orifice for the passage of fluid and tabs that project from the base, extending outside a plastic body, and an axial seal positioned between the conduit and the orifice; with the base of the metal bulb facing the plastic body, with the conduit and the orifice aligned to allow the passage of fluid, with the axial seal compressed axially.

A pressure and temperature measuring device with improved fluid flow control having a metal bulb that houses a temperature-sensitive element and a base with an orifice for the passage of fluid and tabs that project from the base, extending outside a plastic body, and an axial seal positioned between the conduit and the orifice; with the base of the metal bulb facing the plastic body, with the conduit and the orifice aligned to allow the passage of fluid, with the axial seal compressed axially.

A fluid level detection apparatus includes a vibrator, a vibration sensor, and a controller. The vibrator is configured to apply a vibration to a container that contains a fluid. The vibration sensor is configured to detect a vibration wave that is generated by the vibrator and propagates through the container. The controller is configured to control an operation of the vibrator and perform arithmetic processing on a detection signal obtained from the vibration sensor. The vibrator and the vibration sensor are provided on an outer wall surface of the container at respective positions that interpose, from above and below, a fluid level of the fluid provided in the container. The controller is configured to calculate a height of the fluid level, on the basis of the vibration wave detected by the vibration sensor.

A fluid level detection apparatus includes a vibrator, a vibration sensor, and a controller. The vibrator is configured to apply a vibration to a container that contains a fluid. The vibration sensor is configured to detect a vibration wave that is generated by the vibrator and propagates through the container. The controller is configured to control an operation of the vibrator and perform arithmetic processing on a detection signal obtained from the vibration sensor. The vibrator and the vibration sensor are provided on an outer wall surface of the container at respective positions that interpose, from above and below, a fluid level of the fluid provided in the container. The controller is configured to calculate a height of the fluid level, on the basis of the vibration wave detected by the vibration sensor.

A fluid level detection apparatus includes a vibrator, a vibration sensor, and a controller. The vibrator is configured to apply a vibration to a container that contains a fluid. The vibration sensor is configured to detect a vibration wave that is generated by the vibrator and propagates through the container. The controller is configured to control an operation of the vibrator and perform arithmetic processing on a detection signal obtained from the vibration sensor. The vibrator and the vibration sensor are provided on an outer wall surface of the container at respective positions that interpose, from above and below, a fluid level of the fluid provided in the container. The controller is configured to calculate a height of the fluid level, on the basis of the vibration wave detected by the vibration sensor.

A fluid level detection apparatus includes a vibrator, a vibration sensor, and a controller. The vibrator is configured to apply a vibration to a container that contains a fluid. The vibration sensor is configured to detect a vibration wave that is generated by the vibrator and propagates through the container. The controller is configured to control an operation of the vibrator and perform arithmetic processing on a detection signal obtained from the vibration sensor. The vibrator and the vibration sensor are provided on an outer wall surface of the container at respective positions that interpose, from above and below, a fluid level of the fluid provided in the container. The controller is configured to calculate a height of the fluid level, on the basis of the vibration wave detected by the vibration sensor.

The invention relates to a pressure and temperature measuring device having a temperature-sensitive element, a pressure-sensitive element, an electronic circuit to which the temperature-sensitive element and the pressure-sensitive element are connected, a connector for connection to the electronic circuit, a plastic body in which the temperature-sensitive element is arranged with a conduit for the passage of fluid, an external housing body that can be coupled to the connector, wherein the measuring device also has a metal bulb that houses the temperature-sensitive element and a base with an orifice for the passage of fluid and tabs that project from the base, and an axial seal positioned between the conduit and the orifice; with the base of the metal bulb facing the plastic body, with the conduit and the orifice aligned to allow the passage of fluid, with the axial seal compressed axially.

The invention relates to a pressure and temperature measuring device having a temperature-sensitive element, a pressure-sensitive element, an electronic circuit to which the temperature-sensitive element and the pressure-sensitive element are connected, a connector for connection to the electronic circuit, a plastic body in which the temperature-sensitive element is arranged with a conduit for the passage of fluid, an external housing body that can be coupled to the connector, wherein the measuring device also has a metal bulb that houses the temperature-sensitive element and a base with an orifice for the passage of fluid and tabs that project from the base, and an axial seal positioned between the conduit and the orifice; with the base of the metal bulb facing the plastic body, with the conduit and the orifice aligned to allow the passage of fluid, with the axial seal compressed axially.